Research status on surface texture in lubrication and friction reduction of tribological systems

https://mij.hoimovietnam.vn/en/archives?article=22056
  • Affiliations:

    1 Viện Cơ khí Năng lượng và Mỏ- Vinacomin
    2 Trường Đại học Kỹ thuật Liêu Ninh-Trung Quốc

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  • Received: 14th-May-2022
  • Revised: 20th-June-2022
  • Accepted: 12th-Aug-2022
  • Online: 30th-Oct-2022
Pages: 40 - 48
Views: 71
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Abstract:

Currently, the research results in the world prove that, scientifically creating friction surface texture is an effective method to improve the tribological properties of the surface, and has the ability to reduce surface wear and energy loss of the machines caused by friction. In order to be able to choose such a friction surface texture, there are many studies on the friction surface texture in the world. The research focuses on the following directions: studying the influence of shape, geometrical parameters, texture distribution on the coenjcient of friction; affect the working and lubricating mode with the existing surface texture on the ability to reduce friction, reduce wear of the friction surface. This paper presents an overview of research results on surface textures in lubrication and friction reduction of tribological systems and proposes detailed research directions in this field.

How to Cite
Le, L.Van, Xu, P. and Yu, Y. 2022. Research status on surface texture in lubrication and friction reduction of tribological systems (in Vietnamese). Mining Industry Journal. XXXI, 5 (Oct, 2022), 40-48. .
References

1. Conniglio N. et al. (2018), Effect of nano-penning surface texturing on self-cleaning function[J]. Surface and coatings technology, 2018, 353:126-134.

2. Jamwal G., Sharma S., Awasthi R. K. (2019), The dynamic performance analysis of chevron shape textured hydrodynamic bearings [J]. Industrial lubrication and tribology, 2019, 72(1): 1-8.

3. Momad M. et al. (2018), Frictional characteristics of laser surface textured activated carbon composite derived from palm kernel [J]. The international journal of advanced manufacturing technology, 2018, 95(5-8): 2943 -2949.

4. Qiu Mingfeng, Delic A., Raeymakers B.(2012), The effect of texture shape on the load-carrying capacity of gaslubricated parallel slider bearings [J]. Tribology letters, 2012, 48(3): 315-327

5. Schun J.K., Ewoldt R. H. (2016), Asymmetric surface textures decrease friction with Newtonian fluids in full film lubricated sliding contact[J]. Tribology international, 2016, 97: 490-498.

6. Uddin M. S., Liu Y. W. (2016), Design and optimization of a new geometric texture shape for the enhancement of hydrodynamic lubrication performance of parallel slider surfaces [J]. Biosurface and biotribology, 2016, 2(2): 59-69.

7. Sedla E. K. M. et al. (2017), Influence of geometry and the sequence of surface texturing process on tribological properties [J]. Tribology international, 2017, 115: 268-273.

8. Гаврилов. К.В., Худяков В.С. (2022), Оценка потерь на трение в текстурированных гидродинамических трибосопряжениях поршневых машин. Часть 2. Параметрические исследования шатунного подшипника ДВС. Вестник ЮУрГУ. Серия «Машиностроение». 2022. Т. 22, №1-С. 24–35.

9. 贾洪铎, 于海武, 唐火红, 等 (2016), 微凸起织构化 PDMS 表面静摩擦特性研究 [J]. 合肥工业大学学报 (自然科学版), 2016, 39(12): 1614-1618.

10. 王洪涛 (2015), 油润滑条件下减摩织构表面的优化设计[D]. 徐州: 中国矿业大学, 2015.

11. 于英华, 杨帅彬, 曹茂林, 沈佳兴, 阮文新 (2022), 滑动轴承表面椭圆偏置类抛物线微织构研究[J]. 表面技术:1-10[2022-01-26].

12. 厉淦, 沈明学, 孟祥铠, 等 (2015), 316L 不锈钢沟槽型表面微织构减摩特性实验研究 [J]. 功能材料 ,

2015, 46(2): 2033-2037.

13. 张东亚, 孙喜洲, 高峰, 等 (2019), 表面织构参数对液压马达滑靴副的摩擦学性能影响研究[J]. 表面技术 ,

2019, 48(4): 230-236.

14. 纪敬虎, 周加鹏, 王沫阳, 等 (2019), 初始表面粗糙度对沟槽织构摩擦性能的影响 [J]. 表面技术, 2019,

48(2): 139-143.

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